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During the scheduled shutdown of the OPAL multi-purpose reactor, an ANSTO engineering and project team has installed a new safety shutdown instrumentation and control system (I&C).

An international research team has discovered how a bacterial toxin, known as Ssp, is capable of entering and killing a wide range of living cells, including human cells using the Australian Synchrotron.

Science and medical experts meet in Adelaide to discuss great potential of particle therapy in Australia

Phase contrast tomography shows great promise in early stages of study and is expected to be tested on first patients by 2020.

The Chair of ANSTO, The Hon Dr Annabelle Bennett, AC SC, announced today that Mr Shaun Jenkinson has been reappointed as the Chief Executive Officer of ANSTO.

There have been significant developments in small modular reactor technologies in 2022. The International Atomic Energy Agency expects small modular reactors (SMRs) to make an important contribution to achieving global climate goals and energy supply security. But with more than 70 SMR designs under development in 18 countries – including innovative reactors that are yet to be licensed and novel methods of modular manufacturing that are new to the nuclear industry – widely deploying SMRs in time remains a tall task.

The User Advisory Committee (UAC) is an independent group that provides advice to ANSTO Australian Synchrotron (AS) senior management on issues from a user perspective.

ANSTO has contributed to international research on quasicrystals that opens the door to tailored magnetic materials.

The process by which plastic degrades in the ocean facilitates its entry into the natural carbon cycle efficiently as carbon dioxide.

Australia and Sri Lanks signs new partnership to fight chronic kidney disease.

Research has demonstrated that internally generated neutrons could be used to effectively target micro-infiltrates and cancer cells outside of the defined treatment regions.

Soft x-rays are generally understood to be x-rays in the energy range 100-3,000 eV. They have insufficient energy to penetrate the beryllium window of a hard x-ray beamline but have energies higher than that of extreme ultraviolet light.